ASE 2025 Annual Conference

In early 2024, the Department for Education announced additional funding to schools and colleges offering the Level 3 Core Maths course for post 16 students. Building from GCSE Maths, Core Maths develops students’ ability to apply maths to real-world contexts they will meet in other areas of study, work and life. In this workshop, secondary science teachers will gain an insight into the Core Maths qualification and why it is important for teachers and students to be aware of it from KS3 upwards.

This event is being run in partnership with the Advanced Mathematics Support Programme (AMSP), with support from the Dept for Education.

Starting to teach post 16 physics can be a daunting prospect. It often falls to experienced colleagues to help coach colleagues who are at the start of their post 16 journey. Time however is short, and coaching can often be reduced to prep-room chats about content and teaching order. This session is designed to help make coaching time more effective.

It will draw on the content of the Institute of Physics’ post 16 Physics Central programme by looking at key messages, demonstrations, and concept development required within each topic. Delegates will get to explore several areas of the post 16 physics curriculum from the point of view of an experienced teacher coaching a colleague.

They will get the opportunity to identify the key concepts and difficulties within topics and explore strategies and demonstrations essential to concept development.

Experience of teaching A level chemistry in a large sixth form college, involving students with a wide range of previous experience and attainment, has led to the identification of several threshold concepts which students must work hard to understand.  

New teaching sequences that help students overcome their misconceptions in chemistry and make better progress in the course have been developed. A strong emphasis on scale has been successful, and to date has been applied to topics such as bonding and structure, rates of reaction, equilibrium, polymers and biochemistry. Ideas, strategies, and resources which can be applied to classroom teaching will be presented.

Interesting misconceptions which relate back to science learning in earlier key stages, such as electricity, temperature and chemical bonding, will also be discussed.

This presentation will introduce PhysChemTechTrainer as an online resource available for senior secondary (ages 16-19) students studying STEM subjects, principally Physics. The resource is entirely free and provides level-appropriate questions and full solutions relating to those questions where the questions vary in terms of context and details each time. It has been designed to complement other teaching and learning strategies in the classroom.

The system was developed in Tasmania, Australia and has been used to successfully boost student outcomes in Tasmanian schools. It is available for use worldwide to teachers and students in English-speaking countries. Students have used it both in the classroom and for homework practice. The system is not an example of AI, but instead is a purposefully curated resource of physics and other STEM problems which can be used to progressively improve student understanding as they study these challenging topics. Following a high impact teaching approach that has been adopted by many schools in the south of Australia, the system assists teachers in structuring lessons, explicit teaching and providing worked examples. It allows for students to gain multiple exposures to the same core material (but in varied ways), access to many styles of questioning and will provide immediate help or feedback when appropriate.

The developer of the system is the presenter. During your session, he will explain how to use PhysChemTechTrainer, how he has used it as a learning tool in his own classroom as students are grappling with new ideas and later on as a revision tool for students consolidating their newly acquired skills and knowledge. He will show how it can be used standalone or incorporated into a school’s learning management system. If you bring an internet-connected device to the session, you will be able to use PhysChemTechTrainer then and there to see how it could benefit students in your classes. Finally, he will provide data on how the system has improved student attainment.

A workshop for those teaching GCSE and A-level chemistry with time to try out and discuss the approaches to tricky topics, such as back titrations, NMR, dynamic equilibria and electrolysis.

Using visual references that students are familiar with, such as making a calculation layout look like a spreadsheet or treating a practical set-up like a recipe in a cookbook, the session is intended to break down the barriers that prevent some students from engaging in the trickier questions, whilst making them fun to teach and easier to mark due to logical structures taught for presenting the answers.

The session is focused on higher tier chemistry GCSE content as well as A-level content, and is suitable for anyone in their teaching journey who would like to try out and share different approaches. Bring a calculator!

Come along to explore the approved Alternative Academic Qualification Cambridge Advanced Nationals in Applied Science and in Human Biology. These exciting, accessible, inclusive and applied qualifications will start teaching from September 2025. Join the team to discover the opportunities for your students and how to make it part of your curriculum offer.

Do you have sets of iPads that you are not sure how to include in your science lessons?  Do you want to find out how technology can be used to enhance teaching and learning?  We will show you some practical ways that you can use iPads within your science teaching.  This session will leave you with ideas to use next week in your classroom.

Mathematical and data sciences are everywhere, and their influence is growing. Our education system must adapt’ – A new approach to mathematics and data education, Royal Society 2023. Using authentic scientific data sets this workshop will give delegates experience of how they can use free technology in the classroom to help their students explore and understand data sets from the natural world.

This ASE event is being run in partnership with the Advanced Mathematics Support Programme, with support from the Department for Education.

Whilst there is plenty of existing research on microscale chemistry and its benefits, much of this focusses on logistics of how and the why. Currently, no research exists on what pupils actually think of it. This led us to a pupil-voice research project on practical work on the microscale.
Students have performed the same practical both full-scale and microscale, and have discussed their views on the process: how easy it is, how useful it is, whether it aids their understanding, and most importantly, whether they prefer it! Both qualitative and quantitative data has been collected using focus groups, lesson observations and % positive response surveys.

This session aims to:
Provide the background of the research project
Discuss early findings of the students' perspectives
Suggest how to make the most out of microscale practical work in your lab

This session relates to the book on Microscale Chemistry sold by ASE/Millgate House

This session will equip attendees with the tools needed to effectively challenge high-ability A-level biology students.  Strategies to improve learning and increase engagement will be discussed and illustrated with specific examples.  Approaches covered will include higher-order questioning techniques, enrichment activities, project-based learning and the use of AI tools.

Research suggests that teaching which is tightly focussed on achieving success in A-level Biology examinations might not be helping students transition to university life. Although most students achieve this successfully, a significant minority (maybe up to 30%) struggle and some leave University. This session explores the possible reasons why and proposes a pedagogy designed to support students interested in studying life sciences and medicine at university, based on the series of Oxford University Press Biology primer books.

Rich contexts, taken from children’s literature, can be used to give pupils a purpose for scientific learning. Stories promote emotive responses - leading to children being more invested in their learning. By using drama conventions, children become real scientists; help well-known characters and understand the breadth of STEM careers available. In a post-lockdown world, this re-builds resilience, problem-solving, collaboration and metacognition.

In Ted Hughes’ The Iron Man, local farmers are outraged by a giant metal man destroying their livelihoods and are desperate for help. As electrical engineers, can pupils learn the substantive and disciplinary knowledge required to stop him in his tracks?

Delegates will step in to fictional contexts and solve problems as working scientists. During the workshop, they will learn how to carefully select age-appropriate texts for purpose and build a progressive sequence of substantive and disciplinary knowledge for a range of topics across the primary science curriculum. There will also be opportunities to consider wider, meaningful curriculum links and outdoor learning opportunities.

The relationship of mathematics to science subjects continues to evolve; from the 2010 SCORE report, the ASE’s Language of Mathematics in Science, through advanced qualification reforms, and General Mathematical Competences in the T-levels.

The Royal Society’s Mathematical Futures Programme proposed a greater focus on Domain Specific Competences, imagining that with a more mathematically literate workforce, all teachers will become teachers of Mathematical and Data Education. This session will trace these developments and consider what they mean for science education in the future.

This workshop on the Nature of Science, given the ‘green tick’ on the ASE’s accreditation scheme addresses questions like ‘Why did I really go into teaching? What future do I want for my students? How can I help them get there?’   Cathy Priest passionately taught secondary school science for 20 years, her students excelled in their exams and loved science, but she rarely got a chance to think about these questions. She now works in teacher training at the Faraday Institute for Science and Religion, aiming to help busy teachers find ways to reach beyond day-to-day curriculum requirements, and inspire their students about the deeper, wider, and more wonderful reaches of science. She aims to equip teachers to help their students develop the scientific literacy to thrive in a world filled with complex, interdisciplinary questions and issues.

The workshop delves into topics including the underlying curiosity and creativity of the scientific endeavour, and aspects like the history and philosophy of science. Here’s why it is so exciting to help students better understand this and other aspects of the nature of science.

Young people today face many deep and important questions, such as those about identity and meaning; humanity’s response to issues like food security, the climate crisis and natural disasters; and the ethical considerations of different technological developments. Helping students to appreciate the nature and role of science including its power but also its limits and therefore the need for other perspectives to approach society’s big questions with wisdom, knowledge, curiosity and confidence is something that science teachers can do to help prepare young people for using their science well beyond the world of exams. This is helpful whether they are going to become brilliant scientists and thought-leaders, or simply citizens able to thrive in a complex, science and technology-filled society.

We do know however, that exams, syllabuses and inspections are important, so the workshop addresses the OFQUAL requirements ‘to appreciate the power and limitations of science; the ethical considerations which may arise from science; the everyday and technological applications of science; and the personal, social, economic and environmental implications of science”. Furthermore, an aspect of CPD identified by Ofsted in their recent science review: ‘Evidence suggests that CPD should align with the curriculum and include teachers learning about the nature of science and its methods. So, it supports teachers to help their students to develop scientific literacy, critical thinking and an understanding of how science can interact with other subjects to offer holistic solutions to world problems and big questions.

In summary, delegates will be supported in understanding that students come to their science lessons with different experiences and personal beliefs that should be considered when planning and delivering science lessons.  It enables them to explore through an interactive presentation, the power and limits of science to answer, 'Big Questions' and the value of other perspectives and it will also support science teachers in reviewing and considering strategies and resources which help students learn about the nature of science.

This session will introduce the ideas presented in Markwick and Reiss (2024). Reconceptualising the school curriculum to address global challenges: Marrying aims-based and ‘powerful knowledge’ approaches. Published in Curriculum Journal, BERA.

We argue that our science curriculum must be re-thought to consider how we prepare students for their futures in such uncertain times and that the ideas presented by Young's 'powerful knowledge' and Reiss and White's 'aims-based curriculum' should be integrated as they are complementary in such contexts.

If you’re keen to identify the benefits and opportunities of taking an engineering-approach in your primary classroom, the Engineering in Primary School Stakeholder Group (EiPs) are the people to meet. A cross-sector group working to improve awareness and quality of provision through the mainstream and enrichment curriculum.

This is a one-stop shop for all you need to know about engineering education opportunities for 5-11 year olds.

The session will give a brief overview of the Assessment Companion for Thinking Skills (ACTS) developed as part of a transnational Erasmus project. The main part of the workshop will be interactively using the Exploratory Talk Tool from this project and discussing how relevant this is to Science Teachers

In this workshop, participants will explore the innovative capabilities of state-of-the-art motorized structure kits and systems. Throughout this hands-on workshop, gain comprehensive insights into constructing and controlling the Motorized Crane, Motorized Structure System, and StructureBOT using advanced stepper and servo motors.
Participants will delve into building and programming these dynamic structures, discovering how to effectively demonstrate real-world engineering principles through engaging interactive projects and challenges.

There is also an opportunity for discussion and collaboration to explore how to align these tools most effectively with educational objectives and enhance student engagement and learning outcomes.

This workshop will empower participants to use these innovative tools to bring the excitement of real-world engineering principles into the classroom, fostering a dynamic and hands-on learning environment.

Quantum technologies are developing much faster than the classroom curriculum evolves. How can we bring quantum ideas into the secondary school classroom and still deliver our required curriculum content? How can a laser pointer and a prism demonstrate quantum effects?

The new, free resource book from the Perimeter Institute for Theoretical Physics provides hands-on activities for your students that will do just that.

This workshop will show some of the fun and simple activities in the Quantum Technology resource and you will see how easily they can be used in your own classroom, and how strongly they connect cutting edge physics with the standard high school curriculum. Waves and superposition, charged particle beams, light, diffraction, refraction, interference, dispersion, lens optics: all parts of the curriculum addressed by these resources, with connections to quantum effects illustrated whilst still highlighting the classical curriculum content.

Diffraction patterns can be interpreted as ‘probability maps’ and this has a direct connection to the quantum world – could dice be used to develop a diffraction pattern? The quantum tunnelling that can produce these probability maps has uses in electron microscopy, but comparing with optical microscopes, including issues with resolving power can take us through optics ideas that our students need to understand. You will try this yourself in this workshop, including making the links to wavelength and the Rayleigh criterion using cheap LEDs and pencils.

If you like the workshop, we can even turn the round of applause at the end into a laser!

Join a dynamic Fireside Chat hosted by VITTA Education, discussing the evolving post-16 technical education landscape. The esteemed panel, comprising education providers, industry links, organisations, and regulatory bodies, will gather to discuss the introduction of Alternative Academic Qualifications (AAQs) and the continuous evolution of T Levels for Health and Science.

This engaging discussion aims to explore the transformative potential of these reforms in shaping the landscape of technical education. Panellists will share their insights on how AAQs and T Levels align with industry demands, foster skills development, and prepare students for successful careers in diverse sectors. We invite educators to participate in this interactive session, where they'll have the opportunity to engage directly with our panellists, share their perspectives, and gain valuable insights into the future of post-16 technical education.

Together, let's shape the future of education and empower the workforce of tomorrow.